The human‐specific noncoding RNA RP11‐424G14.1 functions at the intersection of sexually dimorphic pathways in inflammation, senescence, and metabolism

Abstract Sexual dimorphism is a fundamental characteristic of various physiological and pathological processes in humans, including immune responses, senescence, and metabolism. Most studies on the sex bias have focused on sex hormones or female‐biased genes, whereas male‐biased genetic factors rema...

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Main Authors: Kameron Kennicott, Yun Liang
Format: Article
Language:English
Published: Wiley 2025-02-01
Series:FASEB BioAdvances
Subjects:
Online Access:https://doi.org/10.1096/fba.2024-00101
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author Kameron Kennicott
Yun Liang
author_facet Kameron Kennicott
Yun Liang
author_sort Kameron Kennicott
collection DOAJ
description Abstract Sexual dimorphism is a fundamental characteristic of various physiological and pathological processes in humans, including immune responses, senescence, and metabolism. Most studies on the sex bias have focused on sex hormones or female‐biased genes, whereas male‐biased genetic factors remain understudied. Here, we show that the Y‐linked noncoding RNA, RP11‐424G14.1, is expressed in human male keratinocytes. Microarray study suggests the NF‐κB pathway as the top biological pathway affected by RP11‐424G14.1 knockdown, consistent with known sex differences in inflammation. Additionally, IGFBP3 is identified as the top gene supported by RP11‐424G14.1 in male keratinocytes. Conversely, in female keratinocytes, IGFBP3 is the top gene repressed by the X‐linked long noncoding RNA XIST, suggesting a central role of IGFBP3 in mediating sexual dimorphism. Knockdown of RP11‐424G14.1 or IGFBP3 in male keratinocytes inhibits cellular senescence, consistent with increased longevity in females. IGFBP3 expression is dependent on insulin, and metabolomics analysis suggests that RP11‐424G14.1 and IGFBP3 regulate acrylcarnitine metabolism. Our study identifies the role of the RP11‐424G14.1‐IGFBP3 pathway in coordinating sex differences in immunity, senescence, and metabolism. With RP11‐424G14.1 being a human‐specific genetic element, our study suggests the evolving feature of sexual dimorphisms in biological processes.
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spelling doaj-art-5e537d4bd19a4b7996661e4fa51bf1f12025-02-05T11:30:18ZengWileyFASEB BioAdvances2573-98322025-02-0172n/an/a10.1096/fba.2024-00101The human‐specific noncoding RNA RP11‐424G14.1 functions at the intersection of sexually dimorphic pathways in inflammation, senescence, and metabolismKameron Kennicott0Yun Liang1Department of Physiology and Pharmacology and Toxicology Michigan State University East Lansing Michigan USADepartment of Physiology and Pharmacology and Toxicology Michigan State University East Lansing Michigan USAAbstract Sexual dimorphism is a fundamental characteristic of various physiological and pathological processes in humans, including immune responses, senescence, and metabolism. Most studies on the sex bias have focused on sex hormones or female‐biased genes, whereas male‐biased genetic factors remain understudied. Here, we show that the Y‐linked noncoding RNA, RP11‐424G14.1, is expressed in human male keratinocytes. Microarray study suggests the NF‐κB pathway as the top biological pathway affected by RP11‐424G14.1 knockdown, consistent with known sex differences in inflammation. Additionally, IGFBP3 is identified as the top gene supported by RP11‐424G14.1 in male keratinocytes. Conversely, in female keratinocytes, IGFBP3 is the top gene repressed by the X‐linked long noncoding RNA XIST, suggesting a central role of IGFBP3 in mediating sexual dimorphism. Knockdown of RP11‐424G14.1 or IGFBP3 in male keratinocytes inhibits cellular senescence, consistent with increased longevity in females. IGFBP3 expression is dependent on insulin, and metabolomics analysis suggests that RP11‐424G14.1 and IGFBP3 regulate acrylcarnitine metabolism. Our study identifies the role of the RP11‐424G14.1‐IGFBP3 pathway in coordinating sex differences in immunity, senescence, and metabolism. With RP11‐424G14.1 being a human‐specific genetic element, our study suggests the evolving feature of sexual dimorphisms in biological processes.https://doi.org/10.1096/fba.2024-00101inflammationmetabolismnoncoding RNAsenescencesexual dimorphism
spellingShingle Kameron Kennicott
Yun Liang
The human‐specific noncoding RNA RP11‐424G14.1 functions at the intersection of sexually dimorphic pathways in inflammation, senescence, and metabolism
FASEB BioAdvances
inflammation
metabolism
noncoding RNA
senescence
sexual dimorphism
title The human‐specific noncoding RNA RP11‐424G14.1 functions at the intersection of sexually dimorphic pathways in inflammation, senescence, and metabolism
title_full The human‐specific noncoding RNA RP11‐424G14.1 functions at the intersection of sexually dimorphic pathways in inflammation, senescence, and metabolism
title_fullStr The human‐specific noncoding RNA RP11‐424G14.1 functions at the intersection of sexually dimorphic pathways in inflammation, senescence, and metabolism
title_full_unstemmed The human‐specific noncoding RNA RP11‐424G14.1 functions at the intersection of sexually dimorphic pathways in inflammation, senescence, and metabolism
title_short The human‐specific noncoding RNA RP11‐424G14.1 functions at the intersection of sexually dimorphic pathways in inflammation, senescence, and metabolism
title_sort human specific noncoding rna rp11 424g14 1 functions at the intersection of sexually dimorphic pathways in inflammation senescence and metabolism
topic inflammation
metabolism
noncoding RNA
senescence
sexual dimorphism
url https://doi.org/10.1096/fba.2024-00101
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